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Multi-Task Corrupted Prediction for Learning Robust Audio-Visual Speech Representation

ICLR 2025 · Vision-language and multimodal › Cross-modal learning · approach: Audio-visual source localization · 0 citations (OpenAlex)

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Proposes CAV2vec, a self-distillation audio-visual speech representation learning method that predicts clean teacher targets from corrupted inputs, using unimodal cross-modal corrupted prediction (ACP/VCP) to improve robustness of AVSR under joint audio-visual corruption.

Problem

Audio-visual speech recognition degrades under joint audio and visual corruptions (e.g., lip occlusion, blur, background noise), and prior methods rely on specialized architectures or external modules.

Approach

Self-distillation with a corrupted prediction task where the student sees corrupted input and predicts clean teacher targets; unimodal multi-task learning predicts clean audio targets from corrupted video only and clean video targets from corrupted audio only, aligning corrupted modalities without architectural changes.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
add CAV2vec corrupted prediction pretrainingAV-HuBERT-Large · LRS3, object occlusion + noiseN-WER AVG: 6.2 -> 5.1Helped
add CAV2vec corrupted prediction pretrainingAV-HuBERT-Large · LRS3, hands occlusionN-WER AVG: 6.5 -> 5.2Helped
add CAV2vec corrupted prediction pretrainingAV-HuBERT-Large · LRS2, object occlusion + noiseN-WER AVG: 6.8 -> 5.8Helped
add corrupted prediction (AVCP) (ablation)CAV2vec with masked prediction · LRS3, object occlusion + noise (O/MS)N-WER: 6.2 -> 5.3Helped
use multimodal inputs with unimodal targets (mACP + mVCP) instead of AVCP (ablation)CAV2vec · LRS3, object occlusion + noise (O/MS)N-WER: 5.3 -> 5.1Helped
use unimodal inputs for cross-modal ACP + VCP instead of mACP + mVCP (ablation)CAV2vec · LRS3, hands occlusion (H/MS)N-WER: 5.4 -> 5.2Helped
use within-modal targets instead of cross-modal targets (ablation)CAV2vec, ACP + VCP · LRS3, object occlusion + noise (O/MS)N-WER: 5.1 -> 5.2Hurt
add AVCP to ACP + VCP (ablation)CAV2vec · LRS3, object occlusion + noise (O/MS)N-WER: 5.1 -> 5.2Hurt
add within-modal ACP and VCP tasks to ACP + VCP (ablation)CAV2vec · LRS3, object occlusion + noise (O/MS)N-WER: 5.1 -> 5.1No clear effect
increase audio and visual corruption ratios to 0.5 and 0.7 (ablation)CAV2vec · LRS3, object occlusion + noiseN-WER AVG: 5.1 -> 4.7Helped
increase corruption exposure (ablation)CAV2vec · LRS3, cleanWER: 1.5 -> 1.6Hurt

Surprising findings

Limitations

Experimental setup

Datasets: LRS3 LRS2 VoxCeleb2 MUSAN COCO DEMAND 11k-Hands

Benchmarks: LRS3 LRS2 DEMAND noise evaluation

Metrics: WER N-WER

Baselines: V-CAFE RAVEn BRAVEn AV-HuBERT AV-data2vec AV-RelScore

Builds on: AV-HuBERT AV-data2vec data2vec modality dropout

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